用一维斐波那契序列工程的二氧化钒光子晶体的光学双稳定性

IF 1.1 4区 物理与天体物理 Q3 PHYSICS, MULTIDISCIPLINARY
S. Taherzadeh, A. Keshavarz
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引用次数: 0

摘要

在这项研究中,我们利用斐波那契层序列研究了一维光子晶体的光学双稳定性。我们引入了一种新的方法,将二氧化钒(VO2)结合到这些序列中,沉积在具有负折射率材料的玻璃衬底上。我们的工作揭示了微波光谱中明显的高透射峰,具有光学双稳定和多稳定的特征。我们探讨了各种参数,包括VO2填充分数、层厚度和入射角,对这种新型结构内光传输的理论意义。此外,我们证明了VO2层的温度和相位变化如何调制传输峰特性并诱导光学双稳性。这些自适应结构在开发具有可控传输峰的光学器件方面显示出相当大的前景,其潜在应用范围从光开关到可调谐微波滤波器。在微波范围内的关键传输波长的光学双稳性的观察是一个非常理想的结果,具有广泛的意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Optical Bistability in Vanadium Dioxide Photonic Crystals Engineered with One-Dimensional Fibonacci Sequences

Optical Bistability in Vanadium Dioxide Photonic Crystals Engineered with One-Dimensional Fibonacci Sequences

In this study, we investigate optical bistability in one-dimensional photonic crystals using Fibonacci layer sequences. We introduce a novel approach by incorporating vanadium dioxide (VO2) into these sequences, deposited on a glass substrate with a negative refractive index material. Our works reveal significant high transmission peaks in the microwave spectrum, characterized by both optical bistability and multistability. We explore the theoretical implications of various parameters, including the VO2 filling fraction, layer thickness, and incidence angle, on light transmission within this novel structure. Additionally, we demonstrate how temperature and phase variations in the VO2 layer can modulate transmission peak characteristics and induce optical bistability. These adaptable structures show considerable promise for developing optical devices with controlled transmission peaks, with potential applications ranging from optical switches to tunable microwave filters. The observation of optical bistability at critical transmission wavelengths in the microwave range represents a highly desirable outcome with broad implications.

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来源期刊
Physics of Wave Phenomena
Physics of Wave Phenomena PHYSICS, MULTIDISCIPLINARY-
CiteScore
2.50
自引率
21.40%
发文量
43
审稿时长
>12 weeks
期刊介绍: Physics of Wave Phenomena publishes original contributions in general and nonlinear wave theory, original experimental results in optics, acoustics and radiophysics. The fields of physics represented in this journal include nonlinear optics, acoustics, and radiophysics; nonlinear effects of any nature including nonlinear dynamics and chaos; phase transitions including light- and sound-induced; laser physics; optical and other spectroscopies; new instruments, methods, and measurements of wave and oscillatory processes; remote sensing of waves in natural media; wave interactions in biophysics, econophysics and other cross-disciplinary areas.
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